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Magnesium alloys show a tensile strength exceeding 280 MPa in controlled tests. Their elastic modulus typically measures 45 GPa. Thermal conductivity registers at approximately 100 W·m⁻¹·K⁻¹. Impact damping tests yield energy absorption values near 30 J. Comparative evaluations indicate that magnesium alloys demonstrate shock resistance improved by 12% relative to standard aluminium alloys. Controlled exposure to organic compounds and 1 M alkali solutions yields corrosion rates below 0.05 mm per year.
Aluminium-Magnesium alloy wire, Magnesium-Cerium (Mg-Ce) master alloy, Magnesium-Gadolinium (Mg-Gd) master alloy, Magnesium-Lanthan (Mg-La) master alloy, Magnesium-Scandium (Mg-Sc) master alloy, Magnesium-Yttrium (Mg-Y) master alloy, Magnesium-Neodymium (Mg-Nd) primary alloy, Magnesium-Zirconium (Mg-Zr) primary alloy, Aluminium-Magnesium primary alloy, Magnesium-Barium primary alloy, Magnesium-Calcium primary alloy, Magnesium-Dysprosium primary alloy, Magnesium-Nickel (Mg-Ni) primary alloy
Magnesium alloys combine the inherent characteristics of magnesium with the specific contributions of selected alloying elements. This combination produces materials that meet defined application requirements. Their low density, measured strength-to-weight ratio and verified corrosion resistance have led to their use in industries with precise performance standards.
Aluminium-Magnesium alloy wire: This product is designed for applications requiring measured electrical conductivity and durability, as verified by standard tests.
Magnesium-Cerium (Mg-Ce) master alloy: The addition of Cerium improves castability and refines the grain structure, thereby achieving enhanced consistency in alloy production.
Magnesium-Gadolinium (Mg-Gd) master alloy: This master alloy increases mechanical performance and thermal stability, as determined by controlled evaluations.
Magnesium-Lanthan master alloy (Mg-La): It increases strength, stability and temperature resistance under defined thermal conditions.
Magnesium-Scandium (Mg-Sc) master alloy: This alloy improves weldability and mechanical properties, making it applicable in aerospace component manufacture.
Magnesium-Yttrium (Mg-Y) master alloy: It reinforces magnesium alloys by improving creep resistance and maintaining formability during standard processing.
Magnesium-Neodymium (Mg-Nd) primary alloy: The incorporation of this alloy enhances high-temperature performance and refines the grain structure to predetermined specifications.
Magnesium-Zirconium (Mg-Zr) primary alloy: This alloy increases castability and mechanical performance, thereby supporting die-casting processes.
Aluminium-Magnesium primary alloy: It optimises the composition of aluminium alloys, resulting in improved mechanical performance and thermal endurance as measured in laboratory trials.
Magnesium-Barium primary alloy: Its use refines the grain structure and enhances creep resistance in high-performance magnesium alloys according to quantitative assessments.
Magnesium-Calcium primary alloy: This alloy improves corrosion resistance and promotes grain refinement, as evidenced by standard corrosion tests.
Magnesium-Dysprosium primary alloy: It increases mechanical properties, high-temperature stability and creep resistance under controlled evaluation conditions.
Magnesium-Nickel (Mg-Ni) primary alloy: The addition of Nickel improves mechanical performance and high-temperature capability, as determined by recognised test methods.
Precision and Expertise: Our alloys are developed using advanced techniques and precise alloying ratios that have been validated under defined experimental conditions.
Customised Solutions: We offer modifications tailored to your project requirements. Adjustments are made based on measured application data.
Diverse Applications: Our magnesium alloys have been applied across various sectors including aerospace, automotive, electronics and medical devices.
Aerospace: Lightweight magnesium alloys are used in aircraft components to reduce overall mass, thereby improving fuel efficiency. Standard evaluations indicate weight reductions of up to 25% compared with conventional materials.
Automotive: In vehicle manufacturing, these alloys contribute to weight reduction and improved fuel efficiency, as confirmed by controlled tests.
Electronics: Magnesium alloys are employed in portable electronic devices to lower overall weight while meeting specified performance criteria.
Medical Devices: Biocompatible magnesium alloys are used in implants and surgical instruments following thorough material assessments.
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